Potato Virus S (PVS) ELISA Kit

Name: Potato Virus S (PVS) ELISA Kit
SKU: DEIAPV9
Rating: 5 (1 reviews)

Regulatory status: For research use only, not for use in diagnostic procedures.

COA

SDS

Datasheet

Summary

Sample

Host plants

Species Reactivity

Host plants

Detection Method

sELISA

Intended Use

The test can be used to detect PVS in infected potato leaves, tuber eyes, sprouts, and stems.

Contents of Kit

1. Coating Antibody: 0.25 mL. Specific capture polyclonal antibody (PAb) or monoclonal antibody (MAb) for coating ELISA plate.
2. Detecting Conjugate, alkaline phosphatase: 0.25 mL.
3. ELISA Plate: 5×96T. Empty ELISA plate with high binding capacity. The plate should be used for our ELISA Reagents to achieve a maximum test results.
4. Coating Buffer 10×: 6 mL
5. Sample Buffer: 11.6g
6. Conjugate Buffer 10×: 6 mL
7. PBST Buffer (Powder): 28.7g
8. Tween-20: 7.0g
9. PNP Buffer (5×): 10 mL
10. PNP Tablet: 10 Tablets

Storage

Store all buffers at 2-8°C, except for PNP tablets at -20°C under dark.

General Description

Potato virus S (PVS) is of increasing importance in potato. PVS can cause yield loss up to 20%. Most potato cultivars are symptomless, so it is very difficult to detect using visual cues. PVS is non-persistently transmitted by aphids.

Citations

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Documents

pdf COA

pdf SDS

pdf Datasheet

QA & Reviews

Customer Reviews

References

Cu2O-ZnO heterojunction solar cell coupled to a Ni(OH)(2)-rGO-PPy supercapacitor within a porous stoneware tile

CERAMICS INTERNATIONAL

Authors: Orozco-Messana, J.; Daly, R.; Zanchetta-Chittka, I. F.

Abstract

Coupling photovoltaic solar energy (PV) generation with its storage for full availability is a key challenge for sustainable PVs. Tile integration of both can turn buildings or other urban structures, onto autonomous power units for low consumption electronics, sensors, and different e-services, through film printed electronics, ubiquitously available for future smart cities, support the deployment of the internet of things, and closing the gap to net zero energy buildings. Starting from a porous stoneware tile, an electroless conductive Ni-Mo-P layer is the starting point for infiltrating on the connected porosity (3D free structure) of the tile thickness a nanostructured Ni(OH)(2)-rGO-PPy composite acting as supercapacitor. On the open conductive surface an optimized p-Cu2O/n-ZnO heterojunction was grown integrating a coupled charge-storage electrical circuit seamlessly on a commercial tile. The research presented on this paper has allowed the first experimental results of an autonomous, low-cost, energy supply system for future development of building integrated electronics.

Approaches for thermodynamically stabilized CsPbI3 solar cells

NANO ENERGY

Authors: Li, Zhizai; Zhou, Faguang; Wang, Qian; Ding, Liming; Jin, Zhiwen

Abstract

With its suitable bandgap (<1.73 eV), excellent optoelectronic properties and ideal thermo-stability, cesium lead halide, CsPbI3, is a promising candidate for next-generation photovoltaics (PVs). However, its instable structure (perovskite black phase can transform to non-perovskite yellow phase at room temperature) limits further development. Since the first report in 2014, much efforts have been made to stabilize the structure (black phase), and the corresponding inorganic perovskite solar cells (PSCs) have made great progress in terms of power conversion efficiency (PCE) which increased from 0.09% to 19.03%. In this review, we summarize the intrinsical instability of CsPbI3, and discuss the recent works in improving the stability of CsPbI3 from four aspects: (1) ionic incorporation; (2) metastable phases; (3) reduced dimensions; (4) steric hindrance. Finally, the problems that still exist and the possible directions for solving them are presented.